DFIM Companion Note 7: Twistor Projections in the Weld – Unfolding Quantum Non-Locality as Geometric Duality

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Authors: Jesper Åberg
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Abstract

This companion note extends the Dual-Field Interface Model (DFIM, v3.4) by integrating Twistor Theory to provide a rigorous geometric foundation for the model's "mechanical weld" concept. While previous notes described the interface between Positive (+) and Negative (-) bulk fields as a mechanical stiffness ($\kappa$), this note proposes that quantum non-locality and entanglement emerge as geometric projections from a higher-dimensional twistor space ($CP^3$) onto the 4D membrane1. By replacing spacetime points with complex spinors, the "weld" is reinterpreted as the interference pattern of twistor projections, where feedback modulates stiffness via oscillatory phases2. Key Developments in this Note: Geometric Unification: Demystifies quantum "weirdness" (e.g., entanglement) as duality-driven geometry. Entanglement threads are modeled as twistor line crossings that link states across bulks without violating locality3. Equivalence Principle Defense: Formalizes the "soft breach" of the Equivalence Principle (introduced in Notes 3 & 4). It demonstrates that high-momentum projections transmit ($P>0.95$), preserving General Relativity geodesics for macroscopic objects, while low-frequency perturbations reflect4. Conservation Verification: Includes a Python-based numerical simulation confirming that the twistor-modulated weld maintains stable evolution and strictly conserves energy-momentum ($\nabla_\mu T^{\mu\nu} = 0$)555. Lorentz Invariance: Numerical bounds confirm that induced birefringence remains below Planck-scale limits ($

Fields of Study & Subjects

Relativity and Gravitational Theory Black Holes and Theoretical Physics Noncommutative and Quantum Gravity Theories

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
20 January 2026